Method of avoiding synchronization between communicating nodes
a communication node and synchronization technology, applied in the direction of synchronisation signal speed/phase control, data switching network, synchronisation arrangement, etc., can solve the problems of collisions between transmissions, attendant problems of collisions, and above solutions that are not entirely satisfactory, so as to avoid collisions in the communication system
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first embodiment
[0034] Referring to FIG. 1, a first embodiment of the invention comprises a plurality of spatially distributed nodes A that exchange data by wireless communication.
[0035] As shown in FIG. 2, each node A comprises an impulse signal receiving unit 11, a communication timing controller 12, an impulse signal transmitter 13, a steady-state decision unit 14, a data communication unit 15, and a sensor 16. Each node A also has a power supply (not shown) for supplying electrical power to these components.
[0036] The impulse signal receiving unit 11 receives an input impulse signal Sin11 and outputs a received impulse signal Spr11 to the communication timing controller 12 and the steady-state decision unit 14.
[0037] The communication timing controller 12 generates a phase signal Spr12 and outputs it to the impulse signal transmitter 13, steady-state decision unit 14, and data communication unit 15.
[0038] The impulse signal transmitter 13 outputs an output impulse signal Sout11 to the outsi...
second embodiment
[0099] Next, a node according to a second embodiment of the invention will be described. Referring to FIG. 6, the second embodiment adds a suspension controller 10 to the node structure in the first embodiment. The suspension controller 10 outputs a suspend signal Spr10 to all the other constituent elements of the node, that is, to the impulse signal receiving unit 11, communication timing controller 12, impulse signal transmitter 13, steady-state decision unit 14, data communication unit 15, and sensor 16.
[0100] The second embodiment operates in the same way as the first embodiment, except for the following differences.
[0101] The suspension controller 10 switches the operation of each other constituent element in the node on and off periodically. The impulse signal receiving unit 11, communication timing controller 12, impulse signal transmitter 13, steady-state decision unit 14, data communication unit 15, and sensor 16 operate when the suspend signal Spr10 is in the on-state, a...
third embodiment
[0108] Next, a third embodiment of the present invention will be described. Referring to FIG. 7, a node in the third embodiment comprises a data pulse signal receiving unit 31, a communication timing controller 32, a steady-state decision unit 33, a data pulse signal transmitter 34, and a sensor 35.
[0109] The data pulse signal receiving unit 31 receives an input data pulse signal Sin31, outputs a received impulse signal Spr31 to the communication timing controller 32 and steady-state decision unit 33, and outputs a received data signal Spr31 to the data pulse signal transmitter 34. The communication timing controller 32 outputs a phase signal Spr33 to the steady-state decision unit 33 and the data pulse signal transmitter 34. The steady-state decision unit 33 outputs a steady-state decision signal Spr34 to the data pulse signal transmitter 34. The data pulse signal transmitter 34 sends an output data pulse signal Sout31 to the outside world. The sensor 35 inputs environmental infor...
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